Real-Time Vision-Controlled Magnetic XY Arena
Closed-loop camera tracking and motorized XY magnet stage moving an autonomous stimulus inside a chamber to measure visually mediated responses in walking fruit flies (Current Biology, 2012).
Applied AI architect, former robotics engineer, and perception researcher building generative, agentic, and physical AI systems from whiteboard to production. Focused on how agents use tools, reason over governed data, and work alongside people on hard real-world problems.
Production-grade, runnable multi-agent architectures provisioned end-to-end with Terraform. Sample 01 wires bidirectional 3P SaaS-to-Cloud Agent Runtime interoperability over A2A (HTTP+JSON), OIDC Workload Identity Federation, Agent Registry, and dual-mode Agent Gateway. Sample 02 implements a continuous ADK evaluation flywheel spanning local trajectory checks, Metric Registry custom evaluators, synthetic user simulation, loss-cluster root-cause analysis, and OpenTelemetry GenAI v1.39+ ship gates.
Before foundation models and cloud agents, built real-time closed-loop perception and robotic instrumentation for studying biological sensorimotor control: a vision-guided magnetic XY arena (Flyatar) interacting with walking Drosophila in real time, and a self-triggered multi-camera high-speed motion-capture rig (Flytrax) reconstructing 3D wing and body flight maneuvers.
Spanning cloud-scale multi-agent systems, self-supervised vision foundation models, and embedded edge hardware.